■ SAMSUNG electronics 주최 <22th 휴먼테크논문대상> 에서 백상열, 박영진, 김다완 학생은 “Octopus inspired reversible wet/dry skin adhesive using programmable Multi scale Architectures.” 이라는 연구 결과로 Material science & Process 분과에서 은상에 입상하였다.
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CHANG HYUN PANG RESEARCH GROUP
Welcome to SP3 Lab
Super-intelligent Polymer 3D-Architecture (SP3) Lab
for Bioinspired Soft Electronics, Robotics and Biomedical Devices
Super-지능형 고분자 3D 아키텍처 연구실
for 생체모사 고분자 전자소자, 로봇, 바이오메디컬 소자
OVERVIEW
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Our vision revolves around several platforms for super-intelligent polymer 3D-architectures with a nature/bio-inspired approach by combining with multi-functional materials and large-area processing.
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Super-intelligent polymer 3D-architectures include hierarchical nano/micro patterning via unconventonal lithography, 2/3/4D-printing, nanostructural assembly, and molecular level chemical treatments.
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Diverse super-intelligent programmable polymer 3D-architectures are investigated through understanding detailed physical and chemical phenomena and finite element analysis simulations.
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By tailoring ultra-intelligent polymer 3D architectures, we are focusing on developing highly efficient deformable electronics, physical/chemical sensors, and soft robots/actuators, metaverse haptic device interfaces, energy harvesting devices, and biomedical drug delivery devices.
Super-intelligent polymer 3D-architectures for Bioinspired Soft Electronics and Bioelectronics
Soft Poymer Robots, E-skin, & Metaverse Haptic Devices
Biomedical Drug Delivery Devices & Energy Harvesting Devices
NOTICE
[포스닥 & 대학원생 모집]
지능형 소재 및 인터페이스 연구실에서는 세계적인 연구를 함께 주도할
박사후 연구원 및 대학원생(등록금 전액, 생활비 지원, 해외학회 및 연수 지원)을 모집합니다.
연구분야: 지능형 반도체 전자 소재, 바이오 소재 및 소자, 메타버스 센서 및 부착 소재, 소프트 로봇 소재
LATEST NEWS
Best Paper Award in 5th Molecular Materials Meeting at Singapore.
2015/08/05 - 2015년 8월 3-5일 싱가포르 Resorts World Convention Centre에서 열린 5th Molecular Materials Meeting에서 방창현 교수는 “Bio-inspired Omni-Stick Patches using programmable Multi scale Architectures.”이라는 연구 결과로 Best Paper Award를 수상하였다.
Highly Skin-Conformal Microhairy Sensor
A bioinspired microhairy sensor is developed to enable ultraconformability on nonflat surfaces and significant enhancement in the signal-to-noise ratio of the retrieved signals. The device shows ≈12 times increase in the signal-to-noise ratio in the generated capacitive signals, allowing the ultraconformal microhair pressure sensors to be capable of measuring weak pulsations of internal jugular venous pulses stemming from a human neck.
Link to journal article
Highly Skin-Conformal Microhairy Sensor for Pulse Signal Amplification: Changhyun Pang, Ja Hoon Koo, Amanda Nguyen, Jeffrey M. Caves, Myung-Gil Kim, Alex Chortos, Kwanpyo Kim, Paul J. Wang, Jeffrey B.-H. Tok and Zhenan Bao
See the article: http://onlinelibrary.wiley.com/doi/10.1002/adma.201403807/abstract
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